Home healthcare management system and hardware

Abstract

A home healthcare management system wherein a patient conducts self diagnoses and self testing, and manages their own medical records at home. A digital microscope is utilized as part of the system that is smaller, of lower cost, faster, of a higher dynamic range, and has a higher resolution than conventional microscopes. The microscope consists of an illumination source, a spatial sub-sampling device and a detector device. The digital microscope provides a vectored method of collecting images from a digital microscope that is independent of the optical resolution, and a slide based coordinate system, and a method of displaying images and communicating such images over the Internet in a file format that does not require a header or prior knowledge of magnification, coordinate system, or tiling structure. The system further includes an interface for physiological monitoring devices and a connection to the Internet for more comprehensive services.

Description

CROSS-REFERENCE TO RELATED APPLICATIONS[0001]This application claims the benefit of U.S. Provisional Application Ser. No. 61 / 225,693, filed on Jul. 15, 2009, entitled: HOME HEALTHCARE MANAGEMENT SYSTEM AND HARDWARE, by inventor Glenn F. Spaulding.STATEMENT REGARDING FEDERALLY SPONSORED RESEARCH OR DEVELOPMENT[0002]Not Applicable.REFERENCE TO A “MICROFICHE APPENDIX”[0003]Not Applicable.BACKGROUND OF THE INVENTION[0004]1. Field of the Invention[0005]The present invention relates to a system for providing home healthcare management. More specifically, the present invention relates to a home healthcare system for providing home diagnoses, testing, and management of the information derived therefrom.[0006]2. Description of the Related Art[0007]Medical Diagnosis & Diagnostics[0008]Throughout recorded time health care has increasingly relied upon trained healthcare personnel. This was in part due to the limited availability of education, and due to the limited access to medical knowledge b...

AI Technical Summary

Benefits of technology

The present invention provides a low-cost system for at-home healthcare management and an optional internet-linked professional and administrating supporting structure. This system allows families to run laboratory tests and address their own primary health care needs without the additional cost of insurance premiums. The invention uses motion and velocity vectoring methods for capturing and tiling images using a digital microscope, which has better than half-pixel resolutions and meets Nyquist requirements. The patent also describes an optional insurance provider support where patients can run tests at home, connect with a professional, and receive recommendations and prescriptions for treatment. The "technical effects" of this invention are reducing healthcare costs, improving healthcare efficiency, and empowering patients to manage their own healthcare needs.

Problems solved by technology

This was in part due to the limited availability of education, and due to the limited access to medical knowledge bases.

Prior to the general availability of the Internet, patients had to rely on limited medical resources.

The translation of medical knowledge into a series of questions that can lead the patient into a diagnosis is cumbersome, impractical and fraught with error.

Often the listener is uncertain that the press 1 service is exactly what they are looking for, and may try another, ending up at an incorrect end-point.

Testing can be expensive because it includes the cost of the facilities to house the test and personnel, the cost of the instrument that conducts the tests, the government certification and compliant costs, the personnel costs to draw blood, personnel to maintain instruments, personnel to certify compliance, the cost of the test itself, and the administrative costs (e.g., computers, personnel, accounting, health care insurance, etc).

In addition to the issue of non-medical personnel reviewing records and photos, there is an issue of security where servers are broken into or files, taken home on laptops, are by third parties.

However, the number of tests is limited due to the special instrumentation and computer processing required.

Health care costs continue to soar in spite of newer technologies purporting to reduce cost; primary care providers cannot support the 300 million people in the United States, and the spill-over is disrupting emergency care facilities.

The medical paradigm of physician centric primary care is unable to sustain the quality of patient care administered two decades ago.

Digital microscopes are used to enlarge an object, for example a red blood cell in a whole blood smear, but are not designed for colorimetric or fluorometric laboratory assays such as glucose testing, antigen testing and the like.

The tradeoff is a considerably larger objective size, more optical elements in the objective, greater difficulty in assembling and aligning the optical elements, and the need to extend the optical path beyond the objective, i.e., where an additional set of optical elements are required for image formation.

However, when a slide is removed from a digital microscope and later placed back into the same position in the same digital microscope, the original encoder coordinates are no longer valid.

Relying on the fixed coordinate approach to scan and tile slides is costly, cumbersome, and fraught with error.

Encoders are expensive and add complexity and points of failure.

Moreover, others have confused encoder resolution with accuracy.

Moreover, the absolute accuracy is only valid in a specific environment at a precise temperature.

Relying on encoders for abutting image tiles can lead to erroneous image results due to the absolute positional inaccuracy.

For example, if a specific lot of encoders is used for deriving a coordinate system, and that lot is 3,000 nm longer than it should be, images collected and assembled based on that coordinate system will be distorted; this could possibly misdirect a clinical decision.

Encoders, in general, add cost to the system, increase the degree of electrical and software complexity increase assembly and maintenance costs, and add another possible failure point.

Not only is this costly in time, but a typical pathology laboratory would generate terabytes of useless data that federal law mandates must be properly stored for many years, backed up, and security maintained.

Superfluous images of virtual microscope slides, as is seen in the prior art, unnecessarily displaces important information.

There is significant programming and file overhead with the prior art coordinate based image tiling.

A header file is needed for coordinate translation, and if lost or corrupted, image formation can fail.

Additionally, image display is slow—when a file is downloaded from the hard drive it must first go through a coordinate translation algorithm that is unique to coordinate based image tiling to derive the image display coordinates.

Consequently, rounding errors and offset error inaccuracies accumulate with every captured image.

The accumulated error distorts both column and row alignment of tiled images.

This method requires a more expensive camera because of the extra pixels required to overlap images.

Segmentation algorithms for calculating mal-alignment are inaccurate, slow, and computationally intensive.

And, preprocessing images to strip out unused pixels in overlapping area around the image periphery requires significant computation time thereby further slowing down storage.

However, such detection methods require a specific sequence of preparation that is beyond the training of the average person.

Automation comes at a substantial price: capital equipment costs, federal regulatory certification costs, training costs, maintenance costs, and facilities costs.

And, the automation equipment is not disposable.

Consequently, many diagnostic tests cannot be run in small laboratories, physician offices, or at patient homes.

This is especially true of PCR assays, where processing errors are poorly tolerated and the processing methods and temperatures are more complex.

Certain materials related to Delran and high molecular weight polypropylenes may reduce adherence but none eliminate adherence.

A washing step limits the use of many assays to skilled personnel.

Many assays require thermal management—especially PCR assays where thermal management is complex.

They can be heavy and costly, and they are not disposable.

This is one of the technical difficulties that has impeded the general introduction of genetic testing.

Size, durability, and reliability are focus issues for first responder emergencies e.g., anthrax release, bioterrorism, avian flu pandemic, where assays need to be run immediately without prior training, or in difficult terrain such as in a cave, or in a situation where diverting attention to the assay could prove deadly.

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